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The Absolute Differential Calculus (Calculus of Tensors)
Written by a towering figure of twentieth-century mathematics, this classic examines the mathematical background necessary for a grasp of relativity theory. Tullio Levi-Civita provides a thorough treatment of the introductory theories that form the basis for discussions of fundamental quadratic forms and absolute differential calculus, and he further explores physical applications.
Part one opens with considerations of functional determinants and matrices, advancing to systems of total differential equations, linear partial differential equations, algebraic foundations, and a geometrical introduction to theory. The second part addresses covariant differentiation, curvature-related Riemann's symbols and properties, differential quadratic forms of classes zero and one, and intrinsic geometry. The final section focuses on physical applications, covering gravitational equations and general relativity.
Part one opens with considerations of functional determinants and matrices, advancing to systems of total differential equations, linear partial differential equations, algebraic foundations, and a geometrical introduction to theory. The second part addresses covariant differentiation, curvature-related Riemann's symbols and properties, differential quadratic forms of classes zero and one, and intrinsic geometry. The final section focuses on physical applications, covering gravitational equations and general relativity.
Reprint of the Blackie & Son Limited, London, 1926 edition.
physical applications;engineering;applied science;technology;theory of relativity;mathematics;relativity theory;calculus;fundamental quadratic forms;absolute differential calculus;functional determinants;matrices;differential equations;linear partial differential equations;algebraic foundations;covariant differentiation;curvature;riemanns symbols and properties;differential quadratic forms;intrinsic geometry;gravitational equations;general relativity$9.78
Original: $27.95
-65%The Absolute Differential Calculus (Calculus of Tensors)—
$27.95
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Written by a towering figure of twentieth-century mathematics, this classic examines the mathematical background necessary for a grasp of relativity theory. Tullio Levi-Civita provides a thorough treatment of the introductory theories that form the basis for discussions of fundamental quadratic forms and absolute differential calculus, and he further explores physical applications.
Part one opens with considerations of functional determinants and matrices, advancing to systems of total differential equations, linear partial differential equations, algebraic foundations, and a geometrical introduction to theory. The second part addresses covariant differentiation, curvature-related Riemann's symbols and properties, differential quadratic forms of classes zero and one, and intrinsic geometry. The final section focuses on physical applications, covering gravitational equations and general relativity.
Part one opens with considerations of functional determinants and matrices, advancing to systems of total differential equations, linear partial differential equations, algebraic foundations, and a geometrical introduction to theory. The second part addresses covariant differentiation, curvature-related Riemann's symbols and properties, differential quadratic forms of classes zero and one, and intrinsic geometry. The final section focuses on physical applications, covering gravitational equations and general relativity.
Reprint of the Blackie & Son Limited, London, 1926 edition.
physical applications;engineering;applied science;technology;theory of relativity;mathematics;relativity theory;calculus;fundamental quadratic forms;absolute differential calculus;functional determinants;matrices;differential equations;linear partial differential equations;algebraic foundations;covariant differentiation;curvature;riemanns symbols and properties;differential quadratic forms;intrinsic geometry;gravitational equations;general relativity
